Support Structures for Insulation and Other Materials

ABSTRACT

A holder for supporting a material such as insulation. The holder includes a support member having a first and a second wire element for supporting the material, with each of the first and second wire elements having a first end and a second end adapted to engage two beams. The first and second wire elements also are coupled together at least one point such that a substantially planar and vertical holding surface is formed thereby.

CROSS REFERENCE TO RELATED APPLICATIONS

This application is a continuation-in-part of U.S. Ser. No. 11/301,197, filed on Dec. 12, 2005, which is a continuation in part of U.S. Ser. No. 11/230,239, filed on Sep. 19, 2005, by the same inventor.

BACKGROUND OF THE INVENTION

1. Field of the Invention

The invention relates generally to supporting materials inside of structures and more particularly to support structures or holders that are especially useful to support insulation.

2. Description of the Related Art

Insulation installed underneath a roof is typically placed between two studs or beams. Moreover, wall insulation (or specialized insulation such as sound proofing materials) is often laid between studs from long rolls or long strips. The insulation is prevented from sagging or falling by wire hangers which extend from one stud to the other and are anchored in the studs.

The ends of many related-art insulation hangers are pointed, and the hangers are anchored in the studs by hammering. Obviously, it takes a great deal of time to install insulation this way since the number of hangers that must be hammered in each stud is large.

In heating, cooling, ventilating and air-conditioning systems (HVAC systems) in residential homes, apartments, office buildings and other building structures, there are duct members usually made up of metallic pipes, hollow composite materials such as tubes, and the like supported from and between floor or ceiling joists. It is common practice for the HVAC system to include an elongated primary or main duct from which extends a series of smaller branch or fluid-distributing ducts which are mounted between adjoining floor or ceiling joists and are parallel thereto. These main and branch duct members are located between joists and are normally supported by metal wires or adjustable metal hangers which are placed between the joists in transverse supporting position.

Normally the adjustable metal hangers have a substantial depth of section which is difficult and time-consuming to cut to length to fit between non-uniform adjoining joists. Also, a lack of uniformity of the spacing between adjacent joists creates an installation problem. Accordingly, duct hangers having standard uniform lengths cannot practically be utilized.

In addition, the pointed ends or tapered prongs on the ends of certain types of adjustable hangers are not easily or satisfactorily driven into wooden joists at desired locations or at prescribed spacing due to imperfections in the wooden joists such as knots, holes, cracks and the like. And if the part of the hanger that is driven into the joist becomes dull or breaks off during installation or repeated attempts at installation (or if the joist is metal or another material not suited for attachment by hammering), these types of brackets become essentially useless for the intended purpose.

Furthermore, the pointed ends or prongs of some support members occasionally become unseated, thereby allowing the material that is being supported to sag and loose some of its function (e.g., reduction of the R-value of insulation through compaction), or worse, loosen or break (e.g., ducts or pipes).

Metallic hangers are well suited for insulation hanging in hot climates due to their heat transfer properties. In contrast, some plastics and other materials tend to melt, sag, become brittle, or become otherwise impaired due to repeated exposure to extreme temperatures. However, many hangers made of metal are difficult to use in hanging insulation because they are not adjustable or only adjustable in one dimension (i.e., vertically or horizontally). Thus, either differently spaced joists or different depths of insulation cannot be accommodated. Moreover, providing a planar and flat surface onto which insulation can rest typically is not provided by hangers that consist of only a single linear member.

Thus, it continues to be desirable for there to be a support member that provides a “shelf-like” support area for more stably supporting materials such as insulation.

SUMMARY OF THE INVENTION

The invention relates in general to an article for holding a material in place that includes a support member having a first and a second wire element, with each of the first and second wire elements having a first end and a second end adapted to engage two beams. The first and second wire elements are coupled together at least one point such that a substantially planar and vertical holding surface is formed thereby.

Preferably, the first and second wire elements intersect at a plurality of points. Indeed, a “shelf-like” planar support surface is created when the first and second wire elements are intertwined along at least 50% of the support member length. However, in some applications, the first and second wire elements may be coupled at a single point.

By having a non-linear wire element, the holders may be made more compact—allowing multiple holding articles to be provided as a kit. Thus, a kit of the invention would include a plurality of holders and a “holster” for housing the plurality of holders together in a convenient location, such as around the waist of a construction worker.

In one aspect of the invention, the holders contain at least one indication of length upon the second and third wire elements such that the second an third wire elements can both be bent to a substantially uniform length, thereby adjusting the overall length of the holder.

In another aspect of the invention, the second wire element includes a first arm and the third wire element includes a second arm, with the first arm and the second arm cooperating to define a generally L-shaped part of the holder, and the second arm having an end which is spaced from the first arm by the support member.

The second and third wire elements can be bent to define a plane that is not parallel to a second plane defined by the first wire element/support member, thereby allowing the support member to be in greater contact with the material being supported (e.g., insulation).

Another aspect of the invention involves a method for supporting a material in a building and includes the steps of: (1) placing a material between two beams of a structure; and (2) confining that material between the beams using a holder of the invention that includes a support member having a first wire element and second and third wire elements that each define openings or ends for coupling the support member to the two beams of the structure, with at least one of the second and third wire elements being adjustable at a non-linear region. Hence, the confining step may further include expanding or compressing the non-linear wire element to a desired length prior to insertion of one of the beams.

The invention further includes a clip member having corner protrusions adapted to hang one or more holders. The corner protrusions preferably have a heat-insulating material disposed thereon, thereby reducing heat transfer among and between wire elements.

Various other purposes and advantages of the invention will become clear from its description in the specification that follows. Therefore, to the accomplishment of the objectives described above, this invention includes the features hereinafter fully described in the detailed description of the preferred embodiments, and particularly pointed out in the claims. However, such description discloses only some of the various ways in which the invention may be practiced.

BRIEF DESCRIPTION OF THE DRAWINGS

FIGS. 1A and 1B are elevational views of an article in accordance with the invention that has been compressed (1A) or expanded (1B) in width.

FIG. 2A illustrates in front elevational view another embodiment of the holder article according to the invention.

FIG. 2B is a side view of FIG. 2A.

FIG. 3 is a front elevational view of a third embodiment of the invention.

FIG. 4 is a schematic view of a kit embodiment according to the invention.

FIG. 5 is a schematic sectional view of the roof of a structure with insulation and a pipe held in place by holding articles designed as in FIG. 2A.

FIG. 6 is a flow diagram illustrating method steps according to the invention.

FIG. 7 is top plan view of another embodiment of the invention.

FIG. 8A is a partial side view of the embodiment of FIG. 7.

FIG. 8B illustrates the embodiment of FIG. 7 after being configured and installed for a particular application.

FIG. 9 is a front elevational view of an embodiment of the invention show supporting insulation.

FIG. 10 illustrates schematically the installation of a holder of the invention on an I-beam type joist.

FIG. 11 is a front perspective view of a second embodiment of a kit of the invention.

FIG. 12 is a front elevational view of another embodiment of the invention.

FIG. 13 is a front elevational view of a holder clip embodiment of the invention.

FIG. 14 is a top view of another embodiment of the invention.

FIG. 15 is a top view of a another embodiment of the invention.

FIG. 16. is a top view of another embodiment of the invention.

DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS

Referring to FIG. 1, the numeral 10 identifies an article in accordance with the invention for holding or confining a material such as insulation (e.g., see FIG. 5). The holding article 10 includes a non-linear (i.e., not defining a straight line) supporting element 12 which functions to support the material. The supporting element 12 is elongated and has spaced longitudinal ends, and an anchoring element 14 is secured to one of the ends while another anchoring element 16 is secured to the other of the ends. The anchoring elements 14 and 16 serve to anchor or fix the article 10 to the beams of a structure (not shown in this view). Preferably, the entire holder 10 is constructed as a single piece.

The supporting element 12 comprises a first wire element 18 having an end which coincides with the end of the anchoring elements 14 and 16 and one-piece second and third wire elements 20 and 22 for anchoring the support member 12 to two beams (e.g., studs) of a structure.

The anchoring element 14 comprises an arm 26 formed as a C-shaped member 28. The second wire element 22 is normal to the first wire element 18, and the wire elements 18 and 22 together define an L-shaped part of the holding article 10. In the illustrated embodiment, the “supporting” wire 12 and the “anchoring” wire 22 are integral, and the L-shaped part of the holding article is formed by bending the holding article.

Third wire element 20 carries a generally U-shaped anchoring member 30 which, in the present case, is integral with the third wire element 20 and also is formed by bending. The U-shaped member 30, which is here suspended from the end of the third wire element 20 remote from the first wire element 18, is located on the opposite side of article 10 as the C-shaped anchoring member 28. The end of wire member 20 is preferably formed as a hook 32, although a variety of configurations may be used depending upon the application. In the illustrated embodiment, the “supporting” wire 12 and the “anchoring” wire 20 are integral, and a second L-shaped part of the holding article is formed by bending the holding article to the conformation shown.

The non-linear first wire element 18 preferably is formed as a W-shaped wire member so that the overall conformation of the article 10 is relatively compact yet enables one to adjust the width of the supporting element 12 to accommodate a variety of materials. By varying the length of the supporting element 12 (and thereby the width of article 10), it also becomes possible to adjust the holding article 10 to different structural conditions, e.g., to different distances between the studs or beams of a structure. Thus, the holder article 10 is adjusted in width by expanding or contracting wire member 18 by applying pulling (e.g., arrows F of FIG. 1B) or pushing force to wire elements 20 and 22.

Turning to FIG. 2A, a second embodiment of the invention is show. The holder 40 includes a non-liner first wire element 42 that supports a material being held and is integral with second wire element 44 and third wire element 46. Both second and third wire elements 44 and 46 include an self-anchoring region 48A and 48B. Each of self-anchoring regions 48A and 48B define a U-shaped member 50 comprised of two legs, 52A, 52B and 54A, 54B. Looking at just one anchoring region (48B), the end of the leg 54B remote from the second wire element 44 is inclined into a hook 56 while the end of leg 54A is similarly inclined to form a claw-like gripping portion 58 of the anchoring region 48B.

The U-shaped member 50 is designed to receive and grip a stud or beam of a building structure. The construction of the U-shaped member 50 is such that the U-shaped member 50 can be readily slipped onto a stud or beam. Thus, the gripping portion 58 and the hook 56 are shaped to slide easily when the U-shaped member 50 is pushed over a stud or beam. However, when the U-shaped member 50 is subjected to a force which acts to slide the U-shaped member 50 off the stud or beam, the hook 56 attempts to dig into the stud or beam. The hook 56 then functions as an anchor to hold the U-shaped member 50 on the stud or beam.

The U-shaped member 50 is preferably designed so that the legs 52A, 52B, 54A, and 54B are spread apart elastically when the U-shaped member 50 is pushed onto a stud or beam. Under such circumstances, the legs are urged towards each other after the U-shaped member 50 has been slipped onto the stud or beam thereby increasing the grip of the legs on the stud or beam.

In the embodiment shown in FIG. 2A, the holder 40 is configured such that the second and third wire elements 44 and 46 are bent to define a plane (P1) that is not parallel to a second plane (P2) defined by the first wire element 42, thereby providing “shelf-like” support for the material upon the surface of the non-liner element 42. FIG. 2B illustrates in side view how the second and third wire elements 44 and 46 are bent about 90 degrees relative to the supporting first wire element 42.

FIG. 3 illustrates a third embodiment of the invention in which a holder 60 includes a non-linear first wire element 62 that is integral with a second wire element 64 and a third wire element 66 such that the second and third wire elements are generally perpendicular to wire element 62. Disposed at the end of second element 64 is self-anchoring region 68 and at the end of third wire element 66 is self-anchoring region 70, each of which defines a generally C-shaped opening the is adapted to receive a stud or beam therein. Also, the holder 60 contain at least one indication of length 72A, B, or C which may optionally further include a numeric value 74. The indications 72A-72C are disposed upon the second and third elements such that the second an third elements can both be bent to a substantially uniform length.

Turning to FIG. 4, a kit 80 of the invention is shown. The kit 80 includes a holster 82 (which may include a belt 84) within which a plurality of holders 86 are housed. The holster 80 preferably contains a rigid edge 88 that is adapted for bending one or more of the plurality of holders 86 at a top portion of the holster 82. In this manner, a user may carry the holster 82 around, select at least one of the holders 86, bend the holder at a desired point upon edge 88, install the holder on a pair of beams, and be ready to immediately repeat this process by accessing another holder from the holster 82.

Turning to FIGS. 5 and 6, it can be readily seen that the invention also provides a method for supporting a material in a building that preferably includes the steps of placing material such as insulation 90 (or a pipe 91) between two beams 92 and 94 of a structure 96 and confining the insulation 90 between the beams using a holder 98. The holder 98 comprising a support member having a non-linear first wire element 100 for supporting the insulation 90 and pipe 91 and self-anchoring, one-piece second and third wire elements 102 and 104 that each define openings 106 and 108 for anchoring the support member to the two beams of the structure. Alternatively, the holder may be of the configuration disclosed in FIG. 12.

Preferably, the method further includes expanding or compressing the non-linear support member to a desired width prior to insertion of one of the beams 92 and 94, as well as bending the second and third elements 102 and 104 to a desired length prior to insertion on the beams. Alternatively, the non-linear portions of second and/or third wire elements (see FIG. 12) may be expanded or compressed to adjust the length of the holder.

Turning to FIGS. 7, 8A, and 8B, an embodiment of the invention featuring simple hook-type anchoring ends is shown. The holder 112 includes a support member having a non-linear first wire element 116, which is flanked by two linear support member portions 117, and self-anchoring, one-piece second and third wire elements 114 and 115. As seen in FIG. 8A, the second and third wire elements 114 and 115 are adapted for anchoring to a rod or other protruding fastener, such as nail 118. Alternatively, as shown in FIG. 8B, the embodiment of FIG. 7 can be configured and installed such that it rests upon the respective ledges between beams 119. While the installation of the holder in FIG. 8B is depicted schematically for clarity, it is preferable to expand non-linear element 116, and to bend portions 117, such that the holder is frictionally engaged between beams 119.

As shown in FIG. 9, insulation 120 is generally supported between beams 122 by holder 124. More particularly, holder 124 includes a non-liner support member 126, a linear support member 128 that is continuous with non-linear support member 126, and self-anchoring ends 130. The ends 130 of this embodiment contains sharp points 131 (shown in phantom line), allowing the holder 124 to be secured to a suitable material (e.g., soft wood or Styrofoam) without the use of additional tools (i.e., self-anchoring). Although not illustrated, the holder 124 can be secured in a variety of positions relative to the beams 122 and insulation 120 (e.g., upside down relative to the illustration in FIG. 9 such that the ends 130 provide a “hang down shelf” for the placement of additional rolls of insulation or other material. In this aspect, the invention can be used to increase the amount of a material, such as insulation, easily and without the need for construction.

Turning to FIG. 10, one end of holder 134 is shown in a pre-anchored arrangement with I-beam 136. Anchoring brackets 138 are disposed over the edges of I-beam 136 as indicated by arrows 140. Because the holder of the invention comprises wire members, the brackets 138 can be deformed or otherwise adjusted to fit a variety of I-beam sizes and shapes.

FIG. 11 illustrates another kit of the invention. The kit 144 includes a holster 146 (which may include a belt 148). The holster 146 preferably contains a rigid slot or sleeve 150 that is adapted for bending one or more of the plurality of holders 154 on the exterior of the holster 146. Thus, a user may carry the holster 146 around, select at least one of the holders 154, bend the holder at a desired point through insertion into slot 150, and install the holder on a pair of beams. To further aid the user in bending the holder 154 at a desired point, an indication of measurement 156 preferably is disposed upon an exterior side of holster 146. Also preferably, the holster contains a pressure backing 158 that keeps the holders 154 substantially engaged within the holster 146 through a pressure mechanism, such as spring 160.

FIG. 12 illustrates yet another embodiment of the invention. The holder 170 includes a support member 172 having a first wire element 174 for supporting a material and second and third wire elements (176 and 178) for coupling the support member 172 to two beams of a structure. Each of the second and third wire elements 176 and 178 are contiguous with the first wire element 174 and define an end (180, 182 respectively) adapted to be secured to each one of the two beams (not shown). Moreover, at least one (both are shown here) of the second and third wire elements 176 and 178 contains a non-linear region (184, 186) between each end and the first wire element 174.

FIG. 13 shows a clip embodiment of the invention. The clip member 190 is generally U-shaped and includes two opposing corners at which protrusions 191 and 192 are defined. Arms 193 and 194 extend upwardly from the protrusions 191 and 192 and preferably include a cleat or tooth means 195 that aid in securing the clip 190 to a beam. However, the clip may also be nailed or otherwise fastened or adhered to a beam. The clip may formed of a pre-tensioned material, such as “memory” spring steel, so that it better grips a beam structure. Thus, the arms 193 and 194 may be formed in a “pre-tensioned position” (phantom line 196) that expands to a generally U-shaped configuration upon installation.

To limit or reduce heat transfer between wire members, protrusions 191 and 192 preferably include heat insulation 197 (e.g., rubber). Thus, when a wire member 198 from a holder is placed through and hung from the protrusion 192 as indicated by arrow 199, any heat contained within clip 190 is insulated from wire member 198.

FIG. 14 depicts in top view an embodiment of the invention 210 that is coupled with a clasp 212 at a single point or wire portion 214. A spring (not shown) also may be used as a sleeve (instead of a clasp) to couple the wires together. Thus, the first wire element 216 and the second wire element 218 “flair” at first end 220 and second end 222, thereby forming a planar support surface for insulation 224 (shown in phantom line in FIGS. 14-16) simply by, for example, engaging wood beams with ends 220 and 222.

FIG. 15 illustrates in top view an embodiment of the invention that includes a support member 230 having a first and a second wire element (232 and 234), with each of the first and second wire elements having a first end 236 and a second end 238 adapted to engage two beams (as shown in previous figures). In this embodiment, the first and second wire elements are intertwined at points 40 along at least 50% of the support member length such that a substantially planar and vertical surface is formed for holding insulation 242.

FIG. 16 illustrates in top view an embodiment of the invention that includes a support member 250 having a first and a second wire element (252 and 254), with the first wire element having a first end 256 and a second end 258 adapted to engage two beams (as shown in previous figures). In this embodiment, the first and second wire elements intersect at a plurality of points 260 such that a substantially planar and vertical surface is formed for holding insulation 262. Preferably, the second wire element 252 forms a “figure eight” structure, thereby adding support and stability to the overall configuration.

The invention also includes a method for supporting a material in a building, which includes confining the material between two beams using a holder that has a support member including a first and a second wire element and a first end and a second end adapted to engage two beams, and wherein the first and second wire elements are coupled together at least one point such that a substantially planar and vertical holding surface is formed thereby.

Various changes in the details and components that have been described may be made by those skilled in the art within the principles and scope of the invention herein described in the specification and defined in the appended claims. For example, the holders of the invention may be used to “double stack” insulation (i.e., hang a second layer of insulation) where previously installed insulation is inadequate or has become compressed and lost some of its “R-value.” Thus, the adjustable width and length of the holder of the invention is useful for retrofitting existing structures. Moreover, the term “beams” is meant to encompass a wide variety of structures (i.e., not just rectangular or I-shaped structures) between which insulation or other building materials would commonly be disposed. Therefore, while the present invention has been shown and described herein in what is believed to be the most practical and preferred embodiments, it is recognized that departures can be made therefrom within the scope of the invention, which is not to be limited to the details disclosed herein but is to be accorded the full scope of the claims so as to embrace any and all equivalent processes and products. 

1. An article for holding a material in place, comprising: a support member having a first and a second wire element for supporting said material, each of said first and second wire elements having a first end and a second end adapted to engage two beams, wherein said first and second wire elements are coupled together at least one point such that a substantially planar and vertical holding surface is formed thereby.
 2. The article of claim 1, wherein said first and second wire elements are coupled at a single point or wire portion.
 3. The article of claim 1, wherein said first and second wire elements intersect at a plurality of points.
 4. The article of claim 1, wherein said first and second wire elements are intertwined along at least 50% of the support member length.
 5. A method for supporting a material in a building, comprising the step of: confining said material between two beams using a holder, said holder including a support member having a first and a second wire element for supporting said material, each of said first and second wire elements having a first end and a second end adapted to engage two beams, wherein said first and second wire elements are coupled together at least one point such that a substantially planar and vertical holding surface is formed thereby.
 6. An article for holding a material in place, comprising: a support member having a first and a second wire element for supporting said material, said first wire element having a first end and a second end adapted to engage two beams, wherein said first and second wire elements are coupled together at least one point such that a substantially planar and vertical holding surface is formed thereby.
 7. The article of claim 6, wherein said first and second wire elements are coupled at a single point or wire portion.
 8. The article of claim 6, wherein said first and second wire elements are coupled at a plurality of points.
 9. The article of claim 6, wherein said second wire element forms a figure eight structure along said first wire element. 